CN108685457B

CN108685457B - Juice extractor cutter and juice extractor

Info

Publication number: CN108685457B
Application number: CN201710227684.2A
Authority: CN
Inventors: 刘晓飞
Original assignee: Foshan City Shunde Toplife Electronic Technology Co ltd
Current assignee: Foshan City Shunde Toplife Electronic Technology Co ltd
Priority date: 2017-04-10
Filing date: 2017-04-10
Publication date: 2024-04-16
Anticipated expiration: 2037-04-10
Also published as: CN108685457A

Abstract

The invention discloses a juice extractor cutter and a juice extractor, which can scrape pulp inside fruits to prepare juice. A juicer cutter includes a rotating member, an elastic blade, and a radially outwardly extending mechanism. The rotary member has a predetermined length; the elastic blade is arranged along the length direction of the rotating piece, one end of the elastic blade is connected with one end of the rotating piece, and one surface of the elastic blade, which is perpendicular to the thickness direction of the elastic blade, faces the rotating piece; the radial abduction mechanism is arranged between the rotating piece and the elastic blade to connect the shaft and the elastic blade; in use, the radially outward extending mechanism can drive the resilient blade radially away from or toward the rotating member. The juice extractor cutter and the juice extractor disclosed by the invention can scrape pulp inside fruits to prepare juice more fully.

Description

Juice extractor cutter and juice extractor

Technical Field

The invention belongs to the technical field of juice preparation, and particularly relates to a juice extractor cutter and a juice extractor.

Background

Fruit such as orange, lemon and grapefruit is typically prepared by cutting the fruit into pieces and then crushing the pieces at high speed, or by cutting the fruit in half and then pressing the pieces on a raised press die. The fruit is cut or chopped, so that the juice flows to the chopping board, the cutter and the hands of the operator, and the juice is wasted and the trouble of cleaning is caused.

Referring to fig. 22, a juicing device of the type described in application publication number CN104411214a is shown in fig. 22 and may be used to juice the interior of a fruit. In this device, one end of the flexible blade 23 is not slidable in the axial direction of the rotation shaft, and the other end is slidable in the axial direction of the rotation shaft. To drive the flexible blade 23 to expand toward the outside, it is necessary to apply a force in the axial direction of the rotation shaft to the axially slidable end of the flexible blade 23 to force the middle portion of the flexible blade 23 to bulge outward. However, due to the obstruction of the blade guide 25 and the way of applying force to the flexible blade 23, the portion of the flexible blade 23 close to the blade guide 25 cannot be sufficiently bulged outwardly, i.e., bent concavely toward the rotation axis, and the shape of the flexible blade 23 cannot be made to adhere to the inner wall of the peel, so that the pulp at the portion between the flexible blade 23 and the peel cannot be sufficiently processed.

Disclosure of Invention

The embodiment of the invention provides a juice extractor cutter and a juice extractor, which can scrape pulp inside fruits to prepare juice more fully.

In a first aspect, a juicer cutter is provided that includes a rotating member, a resilient blade, and a radially-abduction mechanism. The rotary member has a predetermined length; the elastic blade is arranged along the length direction of the rotating piece, one end of the elastic blade is connected with one end of the rotating piece, and one surface of the elastic blade, which is perpendicular to the thickness direction of the elastic blade, faces the rotating piece; the radial abduction mechanism is arranged between the rotating piece and the elastic blade to connect the rotating piece and the elastic blade; in use, the radially outward extending mechanism can drive the resilient blade radially away from or toward the rotating member.

In a first possible implementation, the radially outward extending mechanism includes a slide bar, a link, and a rocker arm. The sliding rod is arranged along the axial direction of the rotating piece and can slide along the axial direction of the rotating piece; one end of the connecting rod is hinged with the sliding rod; one end of the rocker arm is hinged to the rotating piece, and the rocker arm is also hinged to the other end of the connecting rod, so that a rocker arm sliding block mechanism is formed by the rocker arm, the sliding rod and the connecting rod, and the rocker arm is positioned on the surface swept by the elastic blade when the elastic blade is elastically deformed; the other end of the rocker arm can push one surface of the elastic blade facing the rotating member when the rocker arm rotates on the rotating member, so that the part of the elastic blade which is not connected with the rotating member is far away from the rotating member along the radial direction of the rotating member.

In combination with the possible implementation manner, in a second possible implementation manner, the other end of the rocker arm is provided with a first limiting surface and a second limiting surface which are intersected, and the first limiting surface is an end surface of the other end of the rocker arm; when the elastic blade is used, the first limiting surface can be abutted against one surface of the elastic blade, which faces the rotating piece, and the second limiting surface can be abutted against the side surface of the elastic blade in the width direction.

In combination with the foregoing possible implementation manner, in a third possible implementation manner, a third limiting surface is further provided at the other end of the rocker arm, and in use, the fourth limiting surface can abut against a surface, which contacts the elastic blade, facing away from the rotating member.

In combination with the above possible implementation manner, in a fifth possible implementation manner, one end of the elastic blade is connected to the rotating member in a hinged manner.

In combination with the foregoing possible implementation manner, in a sixth possible implementation manner, a side of the end of the elastic blade facing away from the rotating member is an arc surface.

In combination with the foregoing possible implementation manner, in a seventh possible implementation manner, the end of the elastic blade has a rounded curved surface.

In combination with the above possible implementation manner, in an eighth possible implementation manner, the device further includes a stop disposed on the rotating member, where the stop includes a limiting portion, the limiting portion is located on a side of the elastic blade opposite to the rotating member, and the limiting portion can limit one end of the elastic blade when the elastic blade is far away from the rotating member so that the elastic blade is bent unidirectionally.

In combination with the above possible implementation manner, in a ninth possible implementation manner, the stopper is capable of moving along the axial direction of the rotating member.

In a second aspect, there is provided a juice extractor comprising: a juicer body; the juicer cutter of any one of the first aspects, the rotating member of the juicer cutter rotatably coupled to the juicer body; the juice extractor cutter can be driven to rotate by taking the rotating shaft of the rotating piece as the center through the rotation driving; the slide bar driving device is arranged on the juicer body and can drive the slide bar to slide along the rotating shaft of the rotating piece when in use.

In a third aspect, there is provided a juice extractor comprising a juice extractor body; the juicer cutter of any one of the first aspects, the rotating member of the juicer cutter being disposed on the juicer body; the clamping mechanism is arranged on the juicer body and used for clamping fruits to be juiced; at least one of the clamping mechanism or the juice extractor cutter can rotate, so that relative rotation is generated between the clamping mechanism and the juice extractor cutter; the rotary drive is arranged on the juicer body and can drive the juicer cutter or the clamping mechanism to rotate; the slide bar driving device is arranged on the juicer body and can drive the slide bar to slide along the rotating shaft of the rotating piece.

In a first possible implementation, the slide bar driving device is a nut screw pair, the screw is coaxially connected with the slide bar, and the nut is arranged on the juicer body.

The juicer and the juicer cutter provided by the embodiment of the invention can be used for carrying out juicing operation in fruits, the elastic blade is driven by the radial driving mechanism to be far away from or close to the rotating piece, so that the pulp is fully scraped to prepare juice, the fruits do not need to be cut, and juice flowing can be avoided.

Drawings

In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings that are needed in the embodiments of the present invention will be briefly described below, and it is obvious that the drawings described below are only some embodiments of the present invention, and other drawings may be obtained according to these drawings without inventive effort to a person of ordinary skill in the art.

FIG. 1 is a schematic illustration of an embodiment of the present invention providing an isometric view of a juicer cutter;

fig. 2 is a juice extractor as shown in fig. 1 front view of the cutter after being unfolded;

FIG. 3 is an enlarged partial view I of FIG. 2;

FIG. 4 is an alternative embodiment according to the present invention the example provides a schematic cross-sectional view of a spring blade;

FIG. 5 is a schematic cross-sectional view of a resilient blade in accordance with another alternative embodiment of the invention;

FIG. 6 is a schematic view of the structure of a resilient blade in an alternative embodiment in accordance with the invention;

FIG. 7 is a schematic illustration of another embodiment of the invention a provided schematic structural diagram of a juicer cutter;

FIG. 8 is a schematic view of the stopper of FIG. 7;

FIG. 9 is a schematic illustration of another embodiment of the invention a provided schematic structural diagram of a juicer cutter;

FIG. 10 is a schematic view of the stopper of FIG. 9;

FIG. 11 is a schematic view of a connection structure of an elastic blade and a first rocker arm of a juice extractor cutter according to an alternative embodiment of the present invention;

FIG. 12 is a schematic view of the free end of the first rocker arm of FIG. 11;

FIG. 13 is a schematic view showing a connection structure of an elastic blade and a first swing arm of a juice extractor cutter according to an alternative embodiment of the present invention;

FIG. 14 is a schematic view of the free end of the first rocker arm of FIG. 13;

FIG. 15 is a schematic view of a connection structure of an elastic blade and a first rocker arm of a juice extractor cutter according to an alternative embodiment of the present invention;

FIG. 16 is a schematic view of the free end of the first rocker arm of FIG. 15;

FIG. 17 is a schematic view of a juice extractor cutter according to an alternative embodiment of the present invention;

fig. 18 is a partial enlarged view II in fig. 17;

FIG. 19 is a schematic view of a juice extractor cutter according to an alternative embodiment of the present invention;

FIG. 20 is a schematic view of the juice extractor of FIG. 19 with the rotating member removed;

fig. 21 is a schematic structural view of a juice extractor according to an embodiment of the present invention;

fig. 22 is a juice extractor of the application publication number CN104411214 a.

Detailed Description

For the purpose of making the objects, technical solutions and advantages of the embodiments of the present invention more apparent, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention, and it is apparent that the described embodiments are some embodiments of the present invention, but not all embodiments of the present invention. All other embodiments, which can be made by those skilled in the art based on the embodiments of the invention without making any inventive effort, are intended to be within the scope of the invention.

Features and exemplary embodiments of various aspects of the invention are described in detail below. In the following detailed description, numerous specific details are set forth in order to provide a thorough understanding of the invention. It will be apparent, however, to one skilled in the art that the present invention may be practiced without some of these specific details. The following description of the embodiments is merely intended to provide a better understanding of the invention by showing examples of the invention. The present invention is in no way limited to any particular construction and arrangement set forth below, but rather covers any modification, substitution, or improvement in parts, components, and connection without departing from the spirit of the invention.

Furthermore, the described features, structures, or characteristics may be combined in any suitable manner in one or more embodiments. In the following description, numerous specific details are provided to give a thorough understanding of embodiments of the invention.

It should be noted that, in the case of no conflict, the embodiments and features in the embodiments may be combined with each other. The present application will be described in detail below with reference to the accompanying drawings in conjunction with embodiments.

The juicer cutter provided by the embodiment of the invention can be used for scraping pulp inside fruits to prepare juice, and comprises a rotating piece, an elastic blade and a radial abduction mechanism.

The radially outward extending mechanism includes a plurality of members in rotational or movable connection therebetween, a portion of the plurality of members being movably connected to the rotary member. The relative positional relationship between the members of the plurality of members may change upon relative movement therebetween, and in a reasonable arrangement, the plurality of members may be partially or fully retracted within/around the rotating member or deployed radially of the rotating member upon actuation of one of the members relative to the other.

The rotary member has a predetermined length; the elastic blade is arranged along the length direction of the rotating piece; the radial abduction mechanism is arranged between the rotating piece and the elastic blade and is connected with the rotating piece and the elastic blade, and the radial abduction mechanism can drive the elastic blade to be far away from and close to the rotating piece along the radial direction of the rotating piece. The resilient blade may also be brought into close proximity with the rotating member when the radially outward extending mechanism is retracted to allow the juicer cutter to have a smaller radial dimension for insertion into the fruit. After the juice extractor cutter is inserted into the fruit, the rotating piece can be driven to rotate around the rotating shaft of the juice extractor cutter, and meanwhile, the radial abduction mechanism and the elastic blade are driven to rotate. When the juice extractor cutter rotates, the radial abduction mechanism can be driven to act, so that the elastic blade is gradually far away from the rotating piece, and the purpose that the elastic blade scrapes pulp from the center of the fruit to the peel is realized. In the above process, both ends of the elastic blade are bent by resistance of the pulp and/or the peel, the elastic blade has a certain radian, can be attached to the inner surface of the peel, and can fully scrape pulp.

Fig. 1 to 3 illustrate a juice extractor cutter 100 provided in one embodiment of the present invention. Fig. 1 is an isometric view of a juice extractor cutter according to an embodiment of the present invention, fig. 2 is a front view of the juice extractor cutter shown in fig. 1 after being unfolded, and fig. 3 is a partially enlarged view I of fig. 2.

The juice extractor cutter 100 includes a rotary member 110, a slide bar 120, a first rocker arm 130, a second rocker arm 140, a first link 150, a second link 160, and two resilient blades 190. The sliding rod 120 is capable of sliding along the rotating member 110, the first rocker arm 130 is hinged to the rotating member 110, and the first link 150 connects the sliding rod 120 and the first rocker arm 130, such that the sliding rod 120, the first rocker arm 130 and the first link 150 form a rocker slider mechanism, i.e. a set of radially outwardly extending mechanisms. The slide bar 120, the second rocker arm 140 and the second link 160 form another set of rocker slider mechanisms, i.e. another set of radially outwardly extending mechanisms. One elastic blade 190 is disposed along the length direction of the rotary member 110 with one end connected to the bottom end of the rotary member 110, and one face of the elastic blade 190 perpendicular to the thickness direction thereof faces the rotary member 110. The other elastic blade 190 is connected to the rotating member 110 in the same manner and is symmetrical with the one elastic blade 190 with respect to the rotating member 110. In this embodiment, the elastic blade 190 is hinged to the rotating member 110, and the hinge axis is parallel to the width direction of the elastic blade 190.

The rotating member 110 is a rotating shaft, and a long groove 111 is provided in a part of the shaft body of the rotating shaft along the length direction, and the long groove 111 penetrates the rotating shaft from the radial direction. One end of the rotating shaft is provided with an axial central hole which is communicated with the long groove 111; the other end of the rotating shaft is also provided with a radial pin hole, and the direction of the pin hole is parallel to the width direction of the long groove 111, namely, the pin hole is a radial hole.

The sliding rod 120 is a cylindrical rod, and one end of the sliding rod is provided with a pin hole which is radially penetrated. The slide bar 120 is disposed in the central hole of the rotating member 110, and one end of the slide bar 120 having a pin hole may extend into the long groove 111 of the rotating member 110, and the other end may extend out of the central hole of the rotating member 110. The slide bar 120 can reciprocally slide in the central bore of the rotary member 110.

The first rocker arm 130 is a rod-like structure. The first rocker arm 130 is provided with pin holes at both ends and the middle, and axes of the three pin holes are parallel. 130 are disposed in the elongated slot of the rotary member 110 at one end, and the pin holes at the end are disposed coaxially with the pin holes on the rotary member 110 and are connected by pin shafts to form a hinge connection. The first rocker arm 130 may rotate on the rotating member 110, and the other end thereof may be far from or near the rotating member 110 at one side of the rotating member 110 when rotating. In this embodiment, the free end of the first rocker arm 130 is further provided with a rotatable roller 199, and the axis of the roller 199 is parallel to the pin hole axis of the first rocker arm 130. In an alternative embodiment, the edges of the circumferential surface of the roller 199 (roller end surface edges) are also provided with flanges, and the distance between the flanges may be equal to or greater than the width of the resilient blade 190.

The first link 150 has a bar-shaped structure, and both ends thereof are provided with pin holes for hinge connection, the two pin holes being parallel. One end of the first link 150 is hinged to one end of the slide bar 120, and the other end of the first link 150 is hinged to a pin hole in the middle of the first swing arm 130. The sliding rod 120, the first rocker arm 130 and the first connecting rod 150 form a rocker arm sliding block mechanism, when the sliding rod 120 slides reciprocally on the rotating member 110, the first rocker arm 130 can be driven to swing around the hinge on the rotating member 110, and the first rocker arm 130 and the first connecting rod 150 can be folded into the long groove of the rotating member 110.

The elastic blade 190 is a long blade, and is elastically bent in the thickness direction thereof, and the edge in the width direction thereof scrapes pulp. The side of the end portion of the elastic blade 190 facing away from the rotary 110 is a cambered surface 191.

One end of one of the elastic blades 190 is hinged to the bottom end of the rotating member 110 and is on the same plane as the first swing arm 130, i.e., the circumferential surface of the roller 199 at the other end of the first swing arm 130 can abut against one surface of the elastic blade 190 facing the rotating member 110 when the first swing arm 130 rotates on the rotating member 110, pushing the part of the elastic blade 190 not connected to the rotating member 110 away from the rotating member 110 in the radial direction of the rotating member 110.

The second swing arm 140 has the same structure as the first swing arm 130, and one end is hinged to a pin hole at the end of the rotating member 110 and is symmetrical to the first swing arm 130 with respect to the rotating member 110. The free end of the second rocker arm 140 is also provided with a roller 199.

The second link 160 has the same structure as the first link 150. The two ends of the second link 160 are respectively hinged to the pin hole in the middle of the second swing arm 140 and the pin hole at the end of the slide bar 120. The second link 160 and the first link 150 are symmetrical with respect to the rotary 110.

One end of the other elastic blade 190 is hinged to the bottom end of the rotating member 110 and is on the same plane as the second swing arm 140, i.e., the circumferential surface of the roller 199 at the other end of the second swing arm 140 can abut against the surface of the elastic blade 190 facing the rotating member 110 when the second swing arm 140 rotates on the rotating member 110, pushing the part of the elastic blade 190 not connected to the rotating member 110 away from the rotating member 110 in the radial direction of the rotating member 110.

When in use, the sliding rod 120 slides towards the outside of the central hole of the rotating member 110, at this time, the first link 150 and the second link 160 respectively drive the first rocker arm 130 and the second rocker arm 140 to approach the rotating member 110 at the same time, and finally the first rocker arm 130, the second rocker arm 140, the first link 150 and the second link 160 are folded into the long groove 111 of the rotating member 110, and the two elastic blades 190 are rotated to be positioned in the long groove 111 or close to/close to the rotating member 110. At this time, the juice extractor cutter 100 has a small radial dimension, and the juice extractor cutter 100 can be integrally inserted into the interior of a fruit such as orange, and the orange or the juice extractor cutter 100 is rotated, thereby generating a relative rotation between the elastic blade 190 and the fruit. During the rotation, the sliding rod 120 is driven to insert into the central hole of the rotating member 110, so that the elastic blade 190 is gradually pushed away from the rotating member 110 by the first rocker arm 130 and the second rocker arm 140 in the process of rotating around the center line of the fruit, the free end of the elastic blade 190 is bent into an arc shape under the action of the pulp and/or the pericarp, the scraping of the pulp layer by layer is realized, and the pulp in the fruit is scraped into juice until the elastic blade 190 is tightly attached to the inner surface of the orange peel.

During the process of folding the first rocker arm 130 and the second rocker arm 140 into the long groove 111, the elastic blade 190 may gradually return from the arc shape to the original straight shape due to elasticity.

The end of the elastic blade 190 which is not hinged to the rotating member 110 is a free end, so that the elastic blade 190 is pressed by the pulp and the peel in the process of approaching the orange peel, so that the elastic blade 190 is curved in an arc shape, namely, the arc fitting with the inner surface of the fruit peel can be formed, and the pulp is scraped more fully.

The side of the end portion of the elastic blade 190 facing away from the rotary 110 is a cambered surface 191. In use, the end of the resilient blade 190 has a relatively high pressure between the side facing away from the rotator 110 and the pulp or peel, and when this portion is formed as a curved surface, the end is free of sharp corners, thereby reducing the damage to the peel by the blade.

In some alternative embodiments, the end portions of the resilient blades 190 are cambered surfaces on sides perpendicular to the width direction and facing away from the rotating member 110. In some alternative embodiments, the tips of the flexible blades 190 have a rounded curved surface, i.e., the tips of the flexible blades 190 are rounded, to further reduce shaving of the peel. Of course, other configurations for removing sharp corners from the distal end of the resilient blade 190 may also mitigate shaving of the peel, such as a chamfer or rounded corner configuration.

The first swing arm 130, the second swing arm 140, the first link 150 and the second link 160 are positioned at a side of the elastic blade 190 facing the rotating member 110, and thus do not contact the untapered pulp portion, and do not generate a large resistance to the rotation of the juice extractor cutter 100 or the fruit. When the fruit is fixed or driven to rotate, the fruit needs to be clamped, so that a clamping object (or the hand of an operator) and the surface of the fruit peel generate enough static friction force. When the resistance between the juice extractor cutter 100 and the inside of the fruit is small, the need for static friction between the grip (or the hand of the operator) and the surface of the fruit skin is also reduced, so that the fruit surface does not need to be applied with too much pressure, the fruit is prevented from being deformed, and the fruit juice is prevented from overflowing or the surface of the fruit skin is prevented from being scraped and damaged by the elastic blade 190.

The elastic blade 190 is hinged to the rotating member 110, and when the first rocker arm 130 or the second rocker arm 140 pushes the elastic blade 190 away from the rotating member 110, the hinged end of the elastic blade 190 can freely rotate, so that deformation of the elastic blade 190 is not hindered. In alternative embodiments, the resilient blade 190 may also be a fixed connection with the rotating member 110.

In the above embodiment, one end of the elastic blade 190 is connected to the rotating member 110, and the other end is in a completely free state. In some alternative embodiments, the other end of the resilient blade 190 may also be arranged to be slidable in the axial direction of the rotary 110. Specifically, a guide structure (e.g., a ring) having a hole/groove for passing the elastic blade 190 may be provided on the rotating member 110 at a position corresponding to the free end of the elastic blade 190, and the opening direction of the hole/groove may be along the axial direction of the rotating member 110, and the free end of the elastic blade 190 may pass through and slide in the hole/groove of the guide structure. The opening of the hole/slot may also be flared to mitigate the obstruction of outward expansion of the resilient blade 190. In other alternative embodiments, the guide structure may be configured to rotate on the rotating member 110, and the axial direction of rotation may be along the radial direction of the rotating member 110 or parallel to the radial direction of the rotating member 110, and the opening direction of the hole/groove of the guide structure may be changed to accommodate the deformation of the elastic blade 190.

Referring to fig. 4, fig. 4 is a schematic cross-sectional view of an elastomeric blade provided in accordance with an alternative embodiment of the present invention. The surface 192a is a side of the elastic blade facing the rotary member 110, the surface 193a is a side of the elastic blade facing away from the rotary member 110, and the side 194a is a side facing the elastic blade in the width direction. The side 194a is at an acute angle to the surface 193a, which are both faces of the blade. In this alternative embodiment, rib 195a is provided on surface 193a to protrude from the surface thereof, and rib 195a extends in a direction consistent with the length direction of resilient blade 190. Rib 195a has a cylindrical or conical surface, i.e., the rib has an arcuate surface in cross-section. The ribs 195a can reduce the compression of the surface 193a of the elastic blade and the inner surface of the fruit peel, thereby preventing the cutting edge of the elastic blade 190 from cutting into the fruit peel too much and reducing the scraping of the fruit peel; in addition, the rib 195a has a rounded surface, so that the rotation resistance of the juice extractor cutter is not significantly increased; meanwhile, the smooth surface of the rib 195a can squeeze the pulp attached to the inner surface of the fruit peel to extract the juice; in addition, ribs 195a increase the torsional stiffness of the blade and prevent torsional deformation of the resilient blade.

Referring to fig. 5, fig. 5 is a schematic cross-sectional view of an elastomeric blade in accordance with another alternative embodiment of the invention; the method comprises the steps of carrying out a first treatment on the surface of the In this alternative embodiment, surface 192b is the side facing the rotary member 110, surface 193b is the side facing away from the rotary member 110, and side 194b is the side facing the width direction of the resilient blade. The side 194b is at an acute angle to the surface 193b, i.e., both are two faces of the blade. The surface 193b is an arc surface as a whole, that is, the surface of the side of the elastic blade 190 facing away from the rotating member 110 is an arc shape in the cross section of the elastic blade 190, so that excessive shaving of peel by the edge of the elastic blade 190 can be prevented, and torsional rigidity of the blade can be increased, and torsional deformation can be prevented.

Referring to fig. 6, fig. 6 is a schematic view of the structure of an elastic blade in an alternative embodiment according to the present invention, the view direction is along the thickness direction of the resilient blade 190. In this alternative embodiment, the width of the portion of the resilient blade 190 for connection with the rocker arm is greater than the width of the end portions thereof, decreasing from the middle to both ends. The arrangement can lighten the torque of the two ends of the elastic blade to the middle part, which is equivalent to increasing the torsional rigidity of the elastic blade and reducing the possibility of torsion of the elastic blade.

Referring to fig. 7 and 8, fig. 7 is a schematic structural view of a juice extractor cutter 200 according to another embodiment of the present invention, and fig. 8 is a schematic structural view of a stopper in fig. 7. The two-dot chain line coil in fig. 7 is used to illustrate the peel contour of the fruit. The juice extractor cutter 200 includes a rotary member 210, a slide bar 220, a first rocker arm 230, a second rocker arm 240, a first link 250, a second link 260, and two resilient blades 290.

The juice extractor cutter 200 in this embodiment has substantially the same structure as the juice extractor cutter 100, except that: the juice extractor cutter 200 further comprises a stop 10: the length of the elastic blade 290 is greater than that of the elastic blade 190, and one end of the elastic blade 290 is fixed to the bottom end of the rotating member 210: first rocker arm 230 and second rocker arm 240 the free end of (a) is not provided with rollers.

The stopper 10 includes a ring body 11, a stopper portion 12, and a stopper portion 13. In this embodiment, the limiting portion 12 and the limiting portion 13 have a cylindrical structure, and are in a central symmetry relationship with respect to the center of the ring body 11. The ring body 11 has a center hole, and the stopper 12 and the stopper 13 protrude from the ring body 11 in the radial direction.

The stopper 10 is mounted at one end of the rotary member 210 (the end of the central hole that opens) through its central hole, and the stopper 10 is capable of sliding in the axial direction of the rotary member 210. When the stopper 10 is mounted on the rotating member 210, the limiting portion 12 is located on a side of one elastic blade 290 facing away from the rotating member 210, and a surface of one end of the elastic blade 290 facing away from the rotating member 210 abuts against the limiting portion 12. The limiting part 13 is positioned on one side of the other elastic blade 290 facing away from the rotating member 210, and one side of one end of the elastic blade 290 facing away from the rotating member 210 abuts against the limiting part 13.

When the elastic blades 290 are driven by the free ends of the first rocker arm 230 and the second rocker arm 240 to be far away from the rotating member 210, the limiting portions 12 and 13 can limit one ends of the two elastic blades 290 respectively, but do not limit the sliding of the surfaces of the two elastic blades 290 relative to the limiting portions 12, so that the ends of the elastic blades 290 bend towards the center of the fruit, and excessive scraping of the peel parts at the fruit inserting openings by the elastic blades 290 can be avoided. The curvature center of the elastic blade 290 after bending is on the side of the elastic blade 290 facing the rotating member 210, and the curved arc is closer to the shape of the fruit peel, so that the fruit pulp is scraped more fully.

Referring to fig. 9 and 10, fig. 9 is a schematic structural view of a juice extractor cutter according to another embodiment of the present invention, and fig. 10 is a schematic structural view of a stopper in fig. 9.

The juice extractor cutter 600 in this embodiment has substantially the same structure as the juice extractor cutter 100, except that the juice extractor cutter 600 further includes a stopper 20.

The stopper 20 includes a ring body 181b, two holes 23, and two stopper portions 22. The ring body 181b is a disk-shaped ring structure, the center of the disk is provided with a center hole, and the disk body is provided with two holes 23 penetrating in the thickness direction. One side wall of the hole 23 forms a stopper 22. The two limit parts 22 are in a central symmetrical relationship with respect to the center of the central hole of the stopper 20.

The central hole of the stop block 20 is sleeved on the slide bar 620 and can axially slide on the slide bar 620. In alternative embodiments, the stop 20 may also fit over the swivel 610. One end of one resilient blade 690 passes through one hole 23 in the stopper 20 and one end of the other resilient blade 690 passes through the other hole 23 in the stopper 20. When the resilient blade 690 moves away from the rotating member 610, the stopper 20 has a stopper portion 22 that restricts the resilient blade 690 from moving away from the rotating member 610, but does not restrict the sliding of the surface thereof with respect to the stopper portion 22, thereby bending the resilient blade 690. The above arrangement can alleviate excessive scraping of the peel at the knife insertion opening on the fruit by the resilient blade 690.

Referring to fig. 11 and 12, fig. 11 is a schematic view illustrating a connection structure of the resilient blade 390 and the first swing arm 330 of the juice extractor cutter 300 according to an alternative embodiment of the present invention, and fig. 12 is a schematic view illustrating a structure of the free end of the first swing arm 330 of fig. 11.

The juice extractor cutter in this embodiment is different from the foregoing embodiments in the connection manner between the rocker arm and the elastic blade, so only the related structures of the elastic blade 390 and the first rocker arm 330 will be described below, and other structures of the juice extractor cutter 300 will not be described herein.

The end surface of the free end (one end for pushing the elastic blade) of the first rocker arm 330 is provided with a protruding portion located in the middle of the end surface (middle in the width direction of the elastic blade). Two side surfaces of the protruding part adjacent to the end surface of the free end are a second limiting surface 333 and a second limiting surface 334. The portion of the free end adjacent to the second limiting surface 333 is a first limiting surface 331, and the portion adjacent to the second limiting surface 334 is a first limiting surface 332.

The resilient blade 390 is provided with a slot 391 along its length. The slot 391 is in this embodiment a through slot, i.e. a slot extending through the thickness of the resilient blade 390, which may in alternative embodiments also be an impermeable slot.

In use, the projection of the free end of the first rocker arm 330 may be inserted into the slot 391 on the resilient blade 390. The first limiting surface 331 and the first limiting surface 332 may abut against one surface of the elastic blade 390 facing the rotating member, and the second limiting surface 333 and the second limiting surface 334 may abut against both sidewalls of the contact groove 391.

The end surface of the free end of the rocker arm can also be an inclined surface, an arc surface or other shapes, so long as the abutting pushing action can be generated on the elastic blade.

Referring to fig. 13 and 14, fig. 13 is a schematic view illustrating a connection structure of an elastic blade 490 and a first swing arm 430 of a juice extractor cutter 400 according to an alternative embodiment of the present invention, and fig. 14 is a schematic view illustrating a free end of the first swing arm 430 of fig. 13. The juice extractor cutter 400 differs from the juice extractor cutter 300 only in the structure of the free end of the first rocker arm 430, which will be further described below, and other structures of the juice extractor cutter 400 are not described herein.

The end surface of the free end of the first rocker arm 430 is provided with a protruding portion protruding in the rocker arm length direction, and both side surfaces (side surfaces in the normal direction along the elastic blade width direction) of the protruding portion are a second stopper surface 433 and a second stopper surface 434. The second limiting surface 433 and the second limiting surface 434 are respectively provided with protrusions along the width direction of the elastic blade, and the portions of the two protrusions facing the end surface of the free end of the elastic blade 430 are a third limiting surface 435 and a third limiting surface 436. The end surface of the free end of the elastic blade 430 is divided into a first limiting surface 431 and a first limiting surface 432 by a protrusion.

The elastic blade 490 is provided with a groove 491, and the groove 491 is provided along the length direction of the elastic blade 490.

The protruding portion of the first rocker arm 430 is disposed in the groove 491, and the second stopper surface 433 and the second stopper surface 434 are respectively in contact engagement with both side walls of the groove 491. The first stop face 431 and the first stop face 432 may abut against a face of the resilient blade 490 facing the rotating member, and the third stop face 435 and the third stop face 436 may abut against a face of the resilient blade 490 facing away from the rotating member.

Referring to fig. 15 and 16, fig. 15 is a schematic view illustrating a connection structure of the elastic blade 590 and the first swing arm 530 of the juice extractor cutter 500 according to an alternative embodiment of the present invention, and fig. 16 is a schematic view illustrating a structure of a free end of the first swing arm 530 of fig. 15.

The juice extractor cutter 500 differs from the juice extractor cutter 300 in that the free end structure of the first rocker arm 430 is different and the resilient blade 590 is not provided with a groove, as will be further described below, and other structures of the juice extractor cutter 500 are not described herein.

The end surface of the free end of the first rocker arm 530 is provided with a projection projecting in the rocker arm length direction, the projection being offset to one side of the end surface, the projection having a side surface (side surface in the elastic blade width direction in the normal direction) adjacent to the end surface of the first rocker arm 530, the side surface being the second limit surface 533. The second stopper face 533 is provided with a projection in the width direction of the elastic blade, and a portion of the projection facing the end face of the free end of the elastic blade 530 is a third stopper face 535. The portion of the free end surface of the resilient blade 530 adjacent to the second limiting surface 533 is the first limiting surface 531.

A groove is formed between the third stop surface 535 and the first stop surface 531 of the first rocker arm 530, the groove being capable of catching the edge of the resilient blade 590, and the second stop surface 533 being in contact engagement with the side of the edge of the resilient blade. The first stop surface 531 may abut against a surface of the resilient blade 590 facing the rotating member and the third stop surface 535 may abut against a surface of the resilient blade 590 facing away from the rotating member.

Referring to fig. 17 and 18, fig. 17 is a schematic structural view of a juice extractor cutter 400d provided according to an alternative embodiment of the present invention, and fig. 18 is a partially enlarged view II of fig. 17.

The juice extractor cutter 400d includes a rotary member 410d, a slide bar 420d, a first swing arm 430d, a second swing arm 440d, a first link 450d, a second link 460d, two lever sets 470d, two resilient blades 490d, and two guide structures 40d.

The difference between the juice extractor cutter 400d and the juice extractor cutter 100 is the different radial abduction mechanisms of the two.

In the juice extractor cutter 400d, the radially outward extending mechanism includes a slide bar 420d, a first rocker arm 430d, a second rocker arm 440d, a first link 450d, a second link 460d, and two lever sets 470d. The middle portions of the first rocker arm 430d and the second rocker arm 440d are hinged, and both are hinged to the rotary member 410d. The first rocker arm 430d and the second rocker arm 440d are identical in structure and are hinged to form an "X" shaped structure. Two lever sets 470d are connected to both sides of the "X" shaped structure, respectively, forming a symmetrical structure about the rotary member 410d.

The first rocker arm 430d includes a first rod segment 431d, a second rod segment 432d, and a hinge therebetween, which in this embodiment is a pin bore 433d. The free ends of the first rod section 431d and the second rod section 432d are provided with a pin hole, namely, two ends of the first rocker arm 430d are provided with a pin hole respectively; a pin hole 434d is provided at a half position between the pin hole 433d and the pin hole of one end. The pin hole 433d is equally spaced from two pin holes at both ends of the first swing arm 430d and is parallel to the other three pin holes. The first swing arm 430d is hinged to the rotating member 410d through a pin hole 433d and is hinged to one end of the first link 450d through a pin hole 434d. The first and second pole segments 431d and 432d are respectively disposed on opposite sides of the rotary member 410d.

One end of the first link 450d is hinged to the slide bar 420d and the other end is hinged to the pin hole 434d of the first swing arm 430 d. The slide bar 420d, the first rocker 430d and the first link 450d form a rocker slider mechanism.

The second swing arm 440d has the same structure as the first swing arm 430d, and includes a first rod section 441d, a second rod section 442d, a pin hole 443d, a pin hole 444d, and two other pin holes at both ends. The second swing arm 440d is hinged to the rotary member 410d through a pin hole 443d and is hinged to one end of the second link 460d through a pin hole 444 d. The first pole segment 441d is located on the same side of the rotating member 410d as the second pole segment 432d, and the second pole segment 442d is located on the same side of the rotating member 410d as the first pole segment 431 d.

One end of the second link 460d is hinged to the pin hole 444d of the second swing arm 440d, and the other end is hinged to the slide bar 420 d. The slide bar 420d, the second rocker 440d and the second link 460d form a rocker slider mechanism.

The rod set 470d includes two rods of equal length. One end of each of the two rod pieces is coaxially hinged to form a hinge structure 480d, the free ends of the two rod pieces are provided with pin holes, and the pin holes are parallel to the hinge shaft of the hinge structure 480 d. One pole set 470d is hinged to the first pole segment 441d and the second pole segment 432d to form a parallel four-pole mechanism; and the hinge structure 480d of the lever set is coupled to the flexible blade 490d. The other resilient blade 490d is connected to the second pole segment 442d and the first pole segment 431d by another pole set 470 d. The distribution of the links 450d and 460d on both sides of the slide bar 420d can balance the stress of the slide bar 420d and reduce friction with the center hole on the rotary member 410 d.

The guide structure 40d is provided with a through guide hole 41d. The two guide structures 40d are respectively hinged at both sides of the rotation member 410d, and the hinge shaft is parallel to the width direction of the elastic blade 490d for respectively guiding the two elastic blades 490 d. The free end of the elastic blade 490d passes through the guide hole 41d on the guide structure 40d corresponding thereto. The guide structure 40d may rotate with the flexible blade 490d when it is bent.

Referring to fig. 19 and 20, fig. 19 is a schematic view illustrating a structure of a juice extractor cutter 100c according to an alternative embodiment of the present invention, and fig. 20 is a schematic view illustrating a structure of the juice extractor cutter 100c of fig. 19 with a rotary member 140c removed. The difference between the juice extractor cutter 100c and the juice extractor cutter 100 is the different radial abduction mechanisms of the two.

The juice extractor cutter comprises a rotary member 140c, a resilient blade 170c, a radially outwardly extending mechanism and a stop 10. The radially outward extending mechanism includes a screw rod 110c, a first nut 120c, a second nut 130c, a rotating member 140c, a first rocker arm 150c, and a second rocker arm 160c. The radially outward extending mechanism is used to connect the elastic blade 170c to the rotating member 140c, and the radially outward extending mechanism is capable of driving the elastic blade 170c away from or toward the rotating member 140c in a radial direction of the rotating member 140c when operated.

The screw 110c includes a pivot section 113c, a first screw section 111c, and a second screw section 112c connected in sequence. The first thread segment 111c is left-handed, for screwing the first nut 120c. The second threaded section 112c is right-handed for screwing the second nut 130c. The pivot section 113c is adapted to mate with the swivel member 140c to form a rotatable shaft bore fit.

The second nut 130c has a substantially cylindrical outer shape and includes an outer circumferential surface, a screw hole, a hinge portion, and a guide portion. The thread rotation direction of the threaded hole is right-handed. The hinge portion is provided with a hole for enabling the hinge, the axial direction of which is perpendicular to the axis of the screw hole of the second nut 130c, and the axes of which do not intersect, i.e., form a spatial perpendicular relationship. The guide portion is a boss protruding from the surface of the second nut 130c in the radial direction, and the boss has a side surface (perpendicular to the end surface of the nut) parallel to the axial direction of the second nut 130c.

In this embodiment, the first nut 120c has substantially the same structure as the second nut 130c, except that the threads of the two nuts are opposite in direction, i.e., the threads of the first nut 120c are left-handed threads.

The first nut 120c is screwed to the first threaded section 111c of the screw 110c, and the second nut 130c is screwed to the second threaded section 112c of the screw 110 c.

The second swing arm 160c is rod-shaped, is provided with holes at both ends, and the axes of the two holes are parallel. The first rocker arm 150c has the same structure as the second rocker arm 160c, and the second rocker arm 160c has the same length as the first rocker arm 150 c.

One end of the second swing arm 160c is hinged to the second nut 130c, one end of the first rocker arm 150c is hinged to the first nut 120c. Meanwhile, the other end of the second swing arm 160c and the other end of the first swing arm 150c are hinged by a pin shaft.

When the screw 110c is relatively rotated with respect to the first nut 120c and the second nut 130c, the second nut 130c and the first nut 120c are moved toward or away from each other, thereby driving the angle between the second rocker arm 160c and the first rocker arm 150c to be smaller or larger, and at the same time, the end of the hinge between the first rocker arm 150c and the second rocker arm 160c can be far from or near the screw 110c.

The rotary member 140c has a cylindrical structure with one end opened and the other end provided with a shaft hole having a diameter smaller than the inner diameter of the cylinder, the shaft hole being coaxial with the cylindrical structure and having a diameter equal to the diameter of the pivot section 113c of the screw 110c. Rotating member 140c the cylinder wall is provided with with the runner parallel to its axis. The barrel inner diameter of the rotary member 140c is larger than the diameter of the second nut 130 c.

The pivot section 113c of the screw 110c is inserted into and rotatable in the shaft hole of the rotary member 140 c. The first thread section 111c, the second thread section 112c, and the first and second nuts 120c and 130c of the screw rod 110c are all located in the barrel of the rotary member 140c, and the guide portion 133c of the second nut 130c and the guide portion of the first nut 120c are located in the slide groove of the rotary member 140 c.

When the screw rod 110c rotates relative to the rotating member 140c through the pivot section 113c, the sidewall of the sliding groove 141c can act on the guide portion of the first nut 120c of the guide portion of the second nut 130c, and generate torque to the first nut 120c and the second nut 130c, thereby driving the first nut 120c and the second nut 130c to rotate relative to the screw rod 110c, and making the angle between the first rocker arm 150c and the second rocker arm 160c larger or smaller.

The elastic blade 170c is a long-strip-shaped blade having a thickness smaller than a width, and is elastically deformed when the blade receives a force in a thickness direction. One end of the elastic blade 170c is hinged to the bottom end of the rotating member 140 c.

The stopper 10 includes a ring body and a limiting portion 12, and in this embodiment, the limiting portion 12 has a cylindrical structure. The ring body has a central hole, and the limiting portion 12 protrudes radially from the ring body.

The stopper 10 is installed at one end of the rotating member 140c through a center hole thereof, and the stopper 10 is capable of sliding in the axial direction of the rotating member 140 c. The stopper 10 is mounted on the rotating member 140c, and the limiting portion 12 is located on a side of the elastic blade 170c facing away from the rotating member 140c, and a side of the end of the elastic blade 170c facing away from the rotating member 140c abuts against the limiting portion 12. When the elastic blade 170c is far away from the rotating member 140c, the limiting portion 12 can limit one end of the elastic blade 170c, but does not limit the sliding of the surface of the elastic blade 170c relative to the limiting portion 12, so that the end of the elastic blade 170c bends towards the center of the fruit, and excessive scraping of the peel portion at the fruit inserting opening by the elastic blade 170c can be avoided. The curvature center of the elastic blade 170c after bending is on the side of the elastic blade 170c facing the rotating member 140c, and the curved arc is closer to the shape of the fruit peel, so that the fruit pulp is scraped more fully.

In use, a larger distance is provided between the first nut 120c and the second nut 130c, and a larger angle is provided between the first rocker arm 150c and the second rocker arm 160c to push the elastic blade 170c to be close to the rotating member 140c, so that the whole juicer cutter has a smaller radial dimension. The juice extractor cutter is then inserted into a fruit such as orange, and the rotary member 140c is rotated, thereby causing the elastic blade 170c to perform a turning motion in the fruit, scraping the pulp. While the rotating member 140c is kept rotating, the screw rod 110c is rotated with respect to the rotating member 140c such that the distance between the first nut 120c and the second nut 130c becomes smaller, and the angle between the second rocker arm 160c and the first rocker arm 150c becomes smaller gradually, thereby driving the elastic blade 170c away from the rotating member 140c in the radial direction of the screw rod 110c, and further scraping the pulp. During the process that the elastic blade 170c is away from the rotating member 140c, both ends of the elastic blade 170c may be subjected to resistance by the inner wall of the pulp and/or the peel, so that the elastic blade 170c is bent in an arc shape. When the middle part of the elastic blade 170c touches the inner wall of the fruit peel, the whole arc of the elastic blade 170c can be attached to the arc of the inner wall of the fruit peel, so that the scraping of the pulp inside the whole fruit is completed.

Referring to fig. 21, fig. 21 is a schematic structural view of a juice extractor according to an embodiment of the present invention.

The juicer 30 includes a juicer body 31, a drive motor 32, a drive gear 33, a driven gear 34, a slide bar drive 35, and a juicer cutter 100a.

The juice extractor cutter 100a has substantially the same structure as the juice extractor cutter 100, except that: one end of the slide bar 120a is provided with external threads, and the end protrudes from the central hole of the rotary member 110.

The slide bar driving device 35 in this embodiment is a member provided with a threaded hole, which is fixed to the juicer body 31, and the threaded hole is coaxial with the slide bar 120a in the juicer cutter 100a and forms a threaded transmission fit with the external thread of the slide bar 120 a.

The juicer body 31 is an installation base of each component, and its specific structure may be specifically set according to actual needs, and the shape structure in fig. 21 is merely illustrative.

The driving motor 32 is fixed on the juicer body 31, and a driving gear 33 is connected to an output shaft of the driving motor 32.

The driven gear 34 is fixed to the rotary member 110, and the rotation axis of the driven gear 34 coincides with the rotation axis of the rotary member 110. The driven gear 34 and the driving gear 33 are in meshed transmission.

The juice extractor cutter 100a is rotatably coupled to the juice extractor body 31, and in particular, is pivoted in a hole of the juice extractor body 31 by a rotation member 110.

The driving motor 32 may drive the juice extractor cutter 100a to rotate through the driving gear 33 and the driven gear 34.

When the rotary member 110 is driven to rotate, the sliding rod 120a follows up and rotates relative to the threaded hole of the sliding rod driving device 35, and the sliding rod 120a slides along the axial direction thereof, so as to drive the elastic blade 190 away from or towards the rotary member 110.

In alternative embodiments, the slide bar drive may be other manual, electric or pneumatic drive devices, as long as the slide bar is driven to reciprocate axially.

The juice extractor 30 may be used as a hand tool. The operator can hold the juice extractor 30 in one hand, grasp the fruit such as orange in the other hand, insert the juice extractor cutter 100a into the fruit, start the juice extractor, and extract the juice from the juice extractor cutter 100 a.

The embodiment of the invention also provides a juicer, which comprises a juicer body, a juicer cutter, a clamping mechanism, a rotary drive device and a slide bar drive device. The juice extractor cutter can be any juice extractor cutter in the previous embodiment, and the juice extractor cutter is arranged on the juice extractor body; the clamping mechanism is arranged on the juicer body and used for clamping fruits to be juiced; at least one of the clamping mechanism and the juicer cutter can rotate, so that relative rotation is generated between the clamping mechanism and the juicer cutter; the rotary drive can drive the juice extractor cutter or the clamping mechanism to rotate; the slide bar driving device can provide power for the slide bar so as to control the slide bar to slide along the axial direction.

The juicer body includes a portion for coupling to a juicer cutter and a portion for coupling to a clamping mechanism. The part for connecting the juice extractor cutter is movable relative to the part for connecting the clamping mechanism. As in the present embodiment, the portion for connecting the juice extractor cutter is provided above the portion for connecting the clamping mechanism, and the portion for connecting the juice extractor cutter may be away from and close to the portion for connecting the clamping mechanism in the up-down direction.

The juicer cutter may be any one of the foregoing embodiments, and is rotatably disposed on the juicer body, with the axis of rotation being coaxial with the axis of the slide bar.

The clamping mechanism is fixed on the juicer body and used for clamping fruits to be juiced. The gripping means may comprise more than two jaws distributed over a circumference, so as to be able to form a surrounding and gripping of the fruit. The circle center of the circumference where the claw is positioned coincides with the axis of the slide bar of the juice extractor cutter. The surface of the claw for clamping fruits can be set as an arc surface, and a bulge which is in a sharp angle shape can be arranged on the arc surface. The claw holds the fruit in real time, and the bulge can be inserted into the fruit epidermis to prevent that the fruit from rotating. The convex is arranged, so that the rotation of the fruit is prevented without completely relying on static friction force between the clamping jaw and the surface of the fruit, the pressure of the clamping jaw on the fruit is relieved, and the fruit peel is prevented from sinking.

The rotary drive is a motor and transmission assembly capable of driving the rotating member of the juicer cutter to rotate. The drive assembly in this embodiment is a gear drive, and in some alternative embodiments, the drive assembly may also be a belt drive.

The slide bar driving device can provide power for the slide bar so as to control the slide bar to slide along the axial direction. The slide bar driving device in the embodiment is a lever mechanism which can be manually operated and is used for providing compressive force or tensile force for the slide bar along the axial direction of the slide bar. In some alternative embodiments, the slide bar driving device is a nut screw pair, the screw is coaxially connected with the slide bar in the juice extractor cutter, and the nut is fixed on the juice extractor body. For a specific structure, reference is made to the description of the juicer 30 in the embodiment, and the description is omitted here.

When in use, the fruit to be juiced is clamped by the clamping mechanism. The part of the juice extractor body, which is used for connecting the juice extractor cutter, is moved towards the clamping mechanism, so that the juice extractor cutter is inserted into the fruit. And starting the rotary drive to drive the rotating piece of the juicer cutter to drive the elastic blade to rotate. And simultaneously, the lever mechanism is pressed, so that the sliding rod slides along the axial direction of the rotating piece. The elastic blade rotates in the fruit and gradually approaches the inner wall of the fruit peel, so that the pulp of the fruit is scraped into juice.

In the case of an alternative embodiment of the present invention, the clamping mechanism is rotatably connected to the juicer body as a whole. For example, the clamping mechanism comprises a base and three clamping claws, and the base is rotatably connected with the juicer body; the three clamping jaws are hinged on the base, and the torsional spring is arranged at the hinge joint so that the clamping jaw can automatically clamp. The juice extractor cutter is fixed on the juice extractor body through a rotating piece. The rotary drive is used for driving the clamping device to rotate.

While the invention has been described with reference to certain preferred embodiments, it will be understood by those skilled in the art that various changes and substitutions of equivalents may be made and equivalents will be apparent to those skilled in the art without departing from the scope of the invention. Therefore, the protection scope of the invention is subject to the protection scope of the claims.

Claims

1. A juice extractor cutter, comprising

A rotating member having a predetermined length;

an elastic blade disposed along a length direction of the rotary member, one end of the elastic blade being connected to one end of the rotary member, one surface of the elastic blade perpendicular to a thickness direction thereof facing the rotary member; and

A radially outward extending mechanism disposed between the rotating member and the elastic blade to connect the rotating member and the elastic blade;

in use, the radially outward extending mechanism is capable of driving the resilient blade away from or towards the rotating member in a radial direction of the rotating member;

the radially outward extending mechanism comprises

The sliding rod is arranged along the axial direction of the rotating piece and can slide along the axial direction of the rotating piece;

one end of the connecting rod is hinged to the sliding rod;

one end of the rocker arm is hinged to the rotating piece, and the rocker arm is also hinged to the other end of the connecting rod, so that a rocker arm sliding block mechanism is formed by the rocker arm, the sliding rod and the connecting rod, and the rocker arm is positioned on a surface swept by the elastic blade when the elastic blade is elastically deformed;

in use, the other end of the rocker arm can push the one face of the elastic blade facing the rotating member when the rocker arm rotates on the rotating member, so that the part of the elastic blade which is not connected with the rotating member is far away from the rotating member along the radial direction of the rotating member.

2. The juice extractor blade as defined in claim 1, wherein said other end of said rocker arm is provided with first and second intersecting limiting surfaces, said first limiting surface being an end face of said other end of said rocker arm;

When the elastic blade is used, the first limiting surface can be abutted against and contacted with one surface of the elastic blade, which faces the rotating piece, and the second limiting surface can be abutted and contacted with the side surface of the elastic blade in the width direction.

3. The juice extractor cutter as defined in claim 2, wherein said other end of said rocker arm is further provided with a third stop surface which, in use, is capable of abutting against a surface of said resilient blade facing away from said rotatable member.

4. The juice extractor blade as defined in claim 1, wherein said one end of said resilient blade is hingedly connected to said rotatable member.

5. The juice extractor blade as defined in any one of claims 1 to 4, wherein the end of said resilient blade is curved on the side facing away from said rotatable member.

6. The juice extractor blade as defined in any one of claims 1 to 4, wherein the distal end of said resilient blade has a rounded curved surface.

7. The juice extractor blade of claim 6 further comprising a stop provided to the rotatable member, the stop including a stop portion located on a side of the resilient blade facing away from the rotatable member, the stop portion being capable of limiting an end of the resilient blade when the resilient blade is away from the rotatable member to permit unidirectional bending of the resilient blade.

8. The juice extractor cutter of claim 7, wherein said stop is movable in an axial direction of said rotatable member.

9. A juice extractor, comprising

A juicer body;

the juice extractor cutter of any of claims 1-8, the rotatable member of the juice extractor cutter rotatably coupled to the juice extractor body;

a rotation drive capable of driving the juicer cutter to rotate about a rotation axis of the rotator;

the slide bar driving device is arranged on the juicer body, and can drive the slide bar to slide along the rotating shaft of the rotating piece when the juicer is used.

10. A juice extractor, comprising

A juicer body;

the juice extractor cutter of any of claims 1-8, the rotation member of the juice extractor cutter being disposed on the juice extractor body;

the clamping mechanism is arranged on the juicer body and used for clamping fruits to be juiced; at least one of the clamping mechanism or the juice extractor cutter can rotate, so that relative rotation is generated between the clamping mechanism and the juice extractor cutter;

the rotary drive is arranged on the juicer body and can drive the juicer cutter or the clamping mechanism to rotate;

The slide bar driving device is arranged on the juicer body and can drive the slide bar to slide along the rotating shaft of the rotating piece.

11. The juicer of claim 10, wherein the slide bar drive is a nut screw pair, the screw being coaxially connected to the slide bar, the nut being provided in the juicer body.